本文研製一套具雲端SCADA管理之定置型儲能櫃，主要是針對一120串1並(120S1P)具容量為108 kWh的儲能櫃，在能源供應和負載需求之間進行匹配與管理。所提是一種基於雲端SCADA的管理系統，該系統利用雲端平台來監控和控制定置型儲能櫃，不僅可以實時監測、保護儲能櫃的運行狀態，收集電芯溫度、電芯充放電狀態等數據，並將數據上傳至雲端資料庫中進行分析。
此外，本文所提之儲能系統管理單元與傳統建置於地端的方式不同，透過無線通訊技術作為資料及命令的傳輸方式，使得雲端SCADA監控平台直接對儲能櫃進行遠程設置和操作，使用者可以即時對儲能櫃進行監控。最後，在儲能櫃裡的電池管理系統提出混合式的電芯平衡策略來改善電池模組不平衡的現象，並利用台電所公布之用電曲線資料，探討儲能櫃在實際應用於不同削峰填谷控制中，其可用容量及時間電價的差異。

This thesis aims to implement an energy storage rack with cloud-based SCADA management. It focuses primarily on a 120S1P energy storage rack with a capacity of 108 kWh. The aim is to match and manage the energy supply and load requirements. The proposed system is a cloud-based SCADA management system that utilizes cloud platforms to monitor and control the fixed-type energy storage cabinet. It enables real-time monitoring and protection of the operational status of the energy storage rack, collects data such as cell temperature and charge-discharge status, and uploads the data to a cloud database for analysis.
Additionally, the energy storage system management unit proposed in this article differs from the traditional on-site deployment method. It utilizes wireless communication technology to transmit data and commands, allowing the cloud-based SCADA monitoring platform to configure and operate the energy storage rack directly. Users can monitor the storage cabinet in real time. Lastly, a hybrid cell balancing strategy is proposed for the battery management system within the storage cabinet to improve the issue of battery module imbalance. The article also explores the differences in available capacity and time-based electricity pricing for the energy storage rack in various peak shaving and valley filling control applications, utilizing the load curve data published by the power company.

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